Abstract: A method and data processing device for detecting a communication between a first and second entity. The method includes identifying whether a previous communication between the first and second entity has been detected. In response to identifying that the previous communication between the first and second entity has been detected, the method determines an elapsed time since detection of the previous communication. The method predicts a topic of the communication, in part based on the determined elapsed time. The topic corresponds to a specific domain from among a plurality of available domains for automatic speech recognition (ASR) processing. The method triggers selection and activation of a first domain specific (DS) ASR engine from among a plurality of available DS ASR engines to utilize a smaller resource footprint than a general ASR engine and facilitate recognition of specific vocabulary and context, in part, based on the elapsed time since the previous communication.

Abstract: A method, a communication device, and a computer program product for identifying a live phone call. The method includes receiving, at a first communication device, an activation of a verification mode for a phone call. The method includes receiving, from a second communication device on the phone call, first audio data associated with the phone call. The method further includes determining, via a processor of the first communication device, if the first audio data contains machine originated audio, and in response to determining that the first audio data does not contain machine originated audio , generating and outputting an alert that the phone call is live.

Abstract: A method, a communication device, and a computer program product for identifying a live phone call. The method includes receiving, at a first communication device, an activation of a verification mode for a phone call. The method includes receiving, from a second communication device on the phone call, first audio data associated with the phone call. The method further includes determining, via a processor of the first communication device, if the first audio data contains machine originated audio, and in response to determining that the first audio data does not contain machine originated audio, generating and outputting an alert that the phone call is live.

Abstract: A method and data processing device for detecting a communication between a first and second entity. The method includes identifying whether a previous communication between the first and second entity has been detected. In response to identifying that the previous communication between the first and second entity has been detected, the method determines an elapsed time since detection of the previous communication. The method predicts a topic of the communication, in part based on the determined elapsed time. The topic corresponds to a specific domain from among a plurality of available domains for automatic speech recognition (ASR) processing. The method triggers selection and activation of a first domain specific (DS) ASR engine from among a plurality of available DS ASR engines to utilize a smaller resource footprint than a general ASR engine and facilitate recognition of specific vocabulary and context, in part, based on the elapsed time since the previous communication.

Abstract: A system includes a fingerprint sensor, an application processor, and an auxiliary processor. The application processor is operable to arm the fingerprint sensor prior to the application processor entering a low power or sleep mode. The auxiliary processor is to receive a state output from the fingerprint sensor. The state output is to cause activation of one or more functions of the auxiliary processor upon fingerprint authentication while leaving the application processor in the low power or sleep mode.

Abstract: An electronic device (300) includes a housing (301). A touch sensitive surface (100) can be disposed along the housing. The touch sensitive surface can include a recessed surface feature (106) on a portion of the touch sensitive surface. A control circuit (315), operable with the touch sensitive surface, can detect a predetermined gesture sequence (501, 502, 503) when a touch actuation along the touch sensitive surface interacts with the recessed surface feature.

Abstract: A system includes a fingerprint sensor, an application processor, and an auxiliary processor. The application processor is operable to arm the fingerprint sensor prior to the application processor entering a low power or sleep mode. The auxiliary processor is to receive a state output from the fingerprint sensor. The state output is to cause activation of one or more functions of the auxiliary processor upon fingerprint authentication while leaving the application processor in the low power or sleep mode.

Abstract: Three-dimensional (3D) audio content creation and rendering systems and methodologies are presented here. A disclosed method of processing 3D audio assigns audio source objects to 3D video objects, links audio tracks to assigned audio source objects, and performs wave field synthesis on the linked audio tracks to generate 3D audio data representing a 3D spatial sound field. A disclosed method of processing 3D audio during playback of 3D video content obtains 3D audio data and 3D video data for a frame of 3D video content, applies device-specific parameters to the 3D audio data to obtain transformed 3D audio data scaled to a presentation device, and processes the transformed 3D audio data to render audio information for an array of speakers associated with the presentation device.

Abstract: A system includes a fingerprint sensor, an application processor, and an auxiliary processor. The application processor is operable to arm the fingerprint sensor prior to the application processor entering a low power or sleep mode. The auxiliary processor is to receive a state output from the fingerprint sensor. The state output is to cause activation of one or more functions of the auxiliary processor upon fingerprint authentication while leaving the application processor in the low power or sleep mode.

Abstract: A system and method for sensing a user presence via thermal signature sensing employs adaptive filtering of a motion spectrum to discern a user presence signature over background thermal noise. In an embodiment, adaptive sub-band filters are applied within the motion spectrum, and a user presence is indicated by the presence of a thermal signature having at least a predetermined magnitude or profile within any searched sub-band. In an embodiment, a low pass filter is applied to search for a stationary presence if the sub-band search procedure does not yield a user thermal signature.

Abstract: An electronic device (300) includes a housing (301). A touch sensitive surface (100) can be disposed along the housing. The touch sensitive surface can include a recessed surface feature (106) on a portion of the touch sensitive surface. A control circuit (315), operable with the touch sensitive surface, can detect a predetermined gesture sequence (501, 502, 503) when a touch actuation along the touch sensitive surface interacts with the recessed surface feature.

Abstract: An electronic device (300) includes a housing (301). A touch sensitive surface (100) can be disposed along the housing. The touch sensitive surface can include a recessed surface feature (106) on a portion of the touch sensitive surface. A control circuit (315), operable with the touch sensitive surface, can detect a predetermined gesture sequence (501, 502, 503) when a touch actuation along the touch sensitive surface interacts with the recessed surface feature.

Abstract: In embodiments of an off-center sensor target region, a capacitive sensor can include a target region that is located off-center relative to a center of the sensor. A touch input to the target region of the capacitive sensor can be determined to be valid sensor input and a touch contact that correlates to the center of the capacitive sensor can be determined to be false sensor input. The target region of the capacitive sensor can correspond to a selectable control that is selectable by a user to initiate a device function.

Abstract: An electronic device (300) includes a housing (301). A touch sensitive surface (100) can be disposed along the housing. The touch sensitive surface can include a recessed surface feature (106) on a portion of the touch sensitive surface. A control circuit (315), operable with the touch sensitive surface, can detect a predetermined gesture sequence (501, 502, 503) when a touch actuation along the touch sensitive surface interacts with the recessed surface feature.

Abstract: A system and method for sensing a user presence via thermal signature sensing employs adaptive filtering of a motion spectrum to discern a user presence signature over background thermal noise. In an embodiment, adaptive sub-band filters are applied within the motion spectrum, and a user presence is indicated by the presence of a thermal signature having at least a predetermined magnitude or profile within any searched sub-band. In an embodiment, a low pass filter is applied to search for a stationary presence if the sub-band search procedure does not yield a user thermal signature.

Abstract: An electronic device (300) includes a housing (301). A touch sensitive surface (100) can be disposed along the housing. The touch sensitive surface can include a recessed surface feature (106) on a portion of the touch sensitive surface. A control circuit (315), operable with the touch sensitive surface, can detect a predetermined gesture sequence (501, 502, 503) when a touch actuation along the touch sensitive surface interacts with the recessed surface feature.

Abstract: A system includes a fingerprint sensor and an auxiliary processor. The auxiliary processor is operable to arm the fingerprint sensor prior to the auxiliary processor entering a low power or sleep mode. The fingerprint sensor can detect a finger proximately located with the fingerprint sensor, capture and store fingerprint data from the finger, perform at least one pre-processing step after capturing the fingerprint data from the finger while the auxiliary processor is in the low power or sleep mode, and after the at least one pre-processing step and upon receiving a request from the auxiliary processor for the finger print data deliver the fingerprint data to the auxiliary processor. The auxiliary processor can compare the fingerprint data to reference data and determine whether the fingerprint data substantially matches the reference data.

Abstract: A system includes a fingerprint sensor and an auxiliary processor. The auxiliary processor is operable to arm the fingerprint sensor prior to the auxiliary processor entering a low power or sleep mode. The fingerprint sensor can detect a finger proximately located with the fingerprint sensor, capture and store fingerprint data from the finger, perform at least one pre-processing step after capturing the fingerprint data from the finger while the auxiliary processor is in the low power or sleep mode, and after the at least one pre-processing step and upon receiving a request from the auxiliary processor for the finger print data deliver the fingerprint data to the auxiliary processor. The auxiliary processor can compare the fingerprint data to reference data and determine whether the fingerprint data substantially matches the reference data.

Abstract: A system includes a fingerprint sensor and an auxiliary processor. The auxiliary processor is operable to arm the fingerprint sensor prior to the auxiliary processor entering a low power or sleep mode. The fingerprint sensor can detect a finger proximately located with the fingerprint sensor, capture and store fingerprint data from the finger, perform at least one pre-processing step after capturing the fingerprint data from the finger while the auxiliary processor is in the low power or sleep mode, and after the at least one pre-processing step and upon receiving a request from the auxiliary processor for the finger print data deliver the fingerprint data to the auxiliary processor. The auxiliary processor can compare the fingerprint data to reference data and determine whether the fingerprint data substantially matches the reference data.

Abstract: A touch sensitive surface (401) for an electronic device (200) includes a capacitive touchpad (409). A grille (413) of non-conductive material (515) is disposed along at least a portion of the touch sensitive surface. A predefined threshold of a normal force component (804) applied by a user's finger or other conductive object overcomes the grille (413) to allow the finger or other conductive object to interact with the capacitive touchpad. The touch sensitive surface reduces false touch activation occurrences and can simulate the tactility of a mechanical switch.